includes providing free learning materials and removing barriers to education, thus serving the public good and contributing to global knowledge sharing. • Personal Satisfaction and Public Service: Authors expressed personal fulfillment in creating OER, derived from the quality of their work and its impact on reducing student expenses. This sentiment complimented the strong sense of public service, especially among those working in public institutions, who view sharing knowledge as part of their duty. • Alignment with Goals: Authoring OER is closely aligned with educators’ academic professional responsibilities regarding content delivery in their courses and contributing to their field
havedesigned for and implemented in our Lean course. One approach is a “Lean Lego Simulation(LLS),” and the other approach is “Student-Company Team Projects.” It is described in detailhow the two pedagogical approaches are performed and their impact on student learning withdiversified background. Both the experience we have gained and the lessons we have learnedare shared with the educational community in order to provide a continuous improvement to theLean curriculum.Course Objectives and FeaturesSince lean systems and lean thinking were introduced in the United States in the early 80s, therehave been many different descriptions of the concept 9-12. For the purposes of our course, leanthinking is a comprehensive management framework that encompasses
mentors.Lastly, Table 1 provides a look at how many mentors are assigned to students. Mentor engagement hasmuch smaller numbers (0.5 or 2 per 1 student to 16 to 1 student) which is manageable given their full-timework commitment (depending on level of mentoring). As capstones are often an ABET major designexperience collection point [17] and regularly assess the accumulation of students engineering knowledge[18], knowing what pre-requisite courses are required for the course becomes important. Understandingpre-requisites is important as they can affect coverage of new topics in the capstone [19] and can affectstudent capabilities and how projects are structured [20]. Each program was surveyed on the topic of pre-requisites in three ways: 1) specific
basis, led by program directors 6. Interview Skills Workshop: a session to illustrate the importance of communication in an interview setting to prepare the DeFINE students for their clinical interviews, led by a human resources director at the major partnering hospital (GHS) 7. Industry Expert Guest Speakers- GORE Medical: a guest company web-chat to highlight the importance of the voice of the customer (VOC) when seeking to identify problems, led by product specialists and quality engineers at GORE Medical 8. What to do after you have a successful design? E-Team/VentureWell Introduction: one of the future outcomes of the NIH/VentureWell grant is to produce designs worthy of entering design
, or newcourses. On top of that, the classroom-level intervention papers added to the discussiondescriptively, having in common the development of students’ interdisciplinary skills, criticality,and understanding of engineering political and social impact. Although they are presented as case studies and semi-guides for other instructorsinterested in the topic, classroom-level intervention reports do not address the necessary systemicchange in engineering. For example, Hoople et al. (2020) discussed the importance of reorienting 6their course to a culturally relevant approach and highlighted the need for an integrated
appropriate action. Does this kind of system require artificial intelligence? No, it depends only on"careful design by excellent teachers who anticipate typical student responses." (IEEE Computer Jun98)While the original electronics oriented ILMs created under the 1994 grant were focussed mainly onretraining those who fell prey to military cutbacks, our group had begun to see a whole world ofacademic possibilities that could additionally address the interactivity shortfall discussed above. Weestablished the Academy to embark upon an integrated interdisciplinary effort to develop electronicmedia, deploy educational products, and impact learning far beyond that which single-dimensionalbooks or static Web pages can accomplish. The Academy has created
engineering department 7 (the completeDepartment of Engineering mission statement is found at http://www.wku.edu/engineering/depmiss.php): Page 13.282.11 …to produce, as its graduates, competent engineering practitioners. An engineering practitioner is one who has a foundation of basic science, mathematics, and engineering knowledge, combined with practical knowledge and experience in applying existing technology to contemporary problems. … Program curricula will be project-based. Students will have sufficient opportunity to engage in project activities to support development of a clear understanding of engineering practice. … Projects that provide
pursued during the summer months. These opportunities are limited at USMAbecause our students are heavily engaged in military training during the summer. One exception,however, is our Geology Field Course, a three-week long three-credit course conducted duringthe summer academic term. Geologic concepts are presented in a classroom setting andsupplemented with laboratory exercises. The majority of the course, however, is conducted atgeologic sites in the field where concepts are illustrated and expanded. This course is highlysought after by the students because it provides the opportunity to study field geology in one ofthe best classrooms available, the Rocky Mountains of Colorado. Extended field trips throughoutsouthern and northern Colorado are
education have shown rapid development in their economies [3,4].STEM education faces several challenges that impact its effectiveness and inclusivity. Insufficientresources, both in terms of funding and quality teaching materials, hinder the ability of educatorsto provide hands-on and engaging experiences for students [5]. Additionally, there is a persistentgender and diversity gap in STEM fields, with underrepresentation of women and minority groups.This lack of diversity not only limits the talent pool but also narrows the perspectives brought toproblem-solving [6]. Moreover, the fast-paced evolution of technology requires constant updatesto curriculum and formal teacher training, posing a challenge to educational institutions to staycurrent [7
engineering perspectives that live in the present.Creativity, Innovation and Critical Thinking in Science and Technology. Examines thinking, arguing, andcreativity in science and technology. It explores complex problems using theories from communication,business and psychology. Case studies of successful and failed innovations are presented. We examine the rolesof experts and researchers in the diffusion of ideas, and the impact of diffusion on economics, media andsociety.Science Outside the Lab (SOtL) North. a deep-dive, immersive introduction to science, policy, and societalimpacts. During the week-long workshop, participants (including Master's and PhD students, as well asPostdocs and young professionals) meet and interact with the people who fund
impact the movement could have oninnovation and manufacturing within the US. As part of that event, President Obama was given a lettercommitting over 100 institutions of higher education to making, research on manufacturing technology,and outreach (Executive Office of the President, 2014). Bucknell University is a co-signer of this letterand provided an additional letter (Bucknell Office of Communications, 2014) outlining Bucknell’sspecific commitment to undergraduate makers and making.Our goal is nothing less than a culture shift for our university community. Just as powerful mobilecomputing has put previously exclusive fields like publishing, photography, and videography intocommon practice, we believe making will empower widespread
develop social networkscomposed of mostly people with sexual and gender identities different from them. In socialnetwork parlance, these networks would be described as heterophilous, or composed of moreoutgroup members than ingroup members [7]. Social network theory would hold that people tendto be drawn toward others with whom they share some common experiences or identities, andthat shared similarity would have many positive effects on different outcomes achieved by thoseindividuals. And cisgender, heterosexual students possibly experience some motivation andvalidation from engaging in networks that are composed predominantly of people who sharethose experiences with them, though these benefits are likely quite latent and subconscious [29].All
the generated electric signals using power spectrums and harmonics analyzers.Moreover, student teams in appropriate courses may be formed to complete specific renewableenergy projects Current literature and best practices of renewable energy education can be usedto engage students in creative ways. Samples of such activities 13 are given below fordemonstration purposes:Project using data acquisition system:The data acquisition system collects data from several different sensors and sends them to thecomputer that posts the data on the internet where it can be monitored by students.Tasks1. With your team, observe the photovoltaic system. How many photovoltaic modules make upthe system’s array?2. On your computer, go to the solar system website
, teachers, guidance counselors, andschool administrators. This introduces the adults to the engineering career, the benefits of acareer in technology-related fields, and the requirements a K - 12 student must complete prior tobeing accepted into a typical university engineering program. This program has been a success and there are plans to expand it into a day camp formatand/or a residence camp in the future.IntroductionWhy is it that female students do not see engineering as a worthy profession? In many cases,girls are discouraged from pursuing science and/or engineering either outright or through thewords and actions of those who have the greatest impact on their choices early in school. Thosewho do choose engineering usually have a
Tracking a Phenomena over Time and Space in a Sensor Network Environment ECEC-511: Wireless Communications Developing MAC protocols, clustering and energy-aware ECET-512: Wireless routing, location awareness, etc. Networks Page 13.766.3 Table 2: Course and laboratory integration to Drexel's Telecommunications and Networking CurriculumMore details on the integration of the laboratory with relevant courses are listed in Table 2.Freshman design projects are offered to first year students with the objective of attracting
gather appropriate data. 6. Propose the best solution(s). 7. Evaluate the proposed solution(s) to determine success in meeting criteria. 8. Plan a poster presenting the team’s design process and solution. 9. Prepare the poster to communicate effectively. 10. Make oral presentation of the team’s solution.Determine Competencies DevelopedThe matrix of competency categories vs. steps shown below illustrates the extent to which eachcompetency is addressed in this project. P is used to denote a primary objective and S to denotea secondary one. Note that communication and teamwork are used in nearly every step of theprocess, but other competency categories appear in only one or two steps. As students progressthrough the project, they exercise
students can put together historical problemsof representation in engineering, critical problems related to the politics of sociotechnicalsystems, ethical issues about accessibility, usability, and justice, and an awareness of engineeringas a practice can only benefit by taking into account the unique and varied ways that humansexperience the built environment. We drew on the research and design practices of artists andeducators like Sara Hendren [1] and Sasha Costanza-Chock [39] to frame this project, who arguebroadly that design solutions must develop in close collaboration with communities of users. Wealso engaged with recent scholarship from critical access scholars including Aimi Hamraie [40]and historians of disability such as Bess
of equipment, controls, and people. 2. Professional Skills/Communication: A successful student will be able to demonstrate, appreciate, and master interpersonal communications skills in the modern workplace. 3. Business: A successful student will be able to understand business terminology, analyze value of alternatives, and communicate the business, societal and global impacts effectively. 4. Continuous Improvement: The successful student will be able to optimize processes and systems with respect to quality, timeliness, and continuous improvement.The faculty team began their course development process by touring severalmanufacturing plants in the region and by asking engineering staff what types of skills
to change parameters and evaluate 89 their impact on performance of BP neural networks model.SP4: Variation of o Students are required to substitute the given function byfunctions some functions to be approximated. 90 o Students are taught to tune parameters of BP neural networks model to fit in new functions to be approximated. o Students are encouraged to evaluate the performance of BP neural networks model in term of various parameters of BP neural networks model with a variety of functions.SP5: Data-driven o Students are assigned some data (set) with input-output
FA52officers serving as rotating military faculty in the Department. The experience and the technicalexpertise of the FA52 officers at West Point have enhanced our ability to establish this major.An important side benefit of the nuclear engineering major is the professional developmentopportunity for our FA52 rotating faculty. By integrating the real-world issues facing thenuclear community into our curriculum, we return to the Army FA52 officers who are more intune with the issues they will face in their follow-on assignments.The Nuclear Engineering (NE) Major The NE study program consists of eighteen required courses from a variety of academicdisciplines. Eight of the courses are taught by the Department of Physics with the remainingcourses
well as visual and performing arts events forpre-college students. Participants’ positive views focus on the importance and significant societalimpact of the AEC industry; while, negative views focus on the lack of gender and racialdiversity. A combination of participants’ AEC professional experiences and views reveal fourincreasing levels of nascent AEC-PID which are categorized as the 4Ps: Plain, Passive,Progressive, and Proactive. As a guide to AEC education and professional communities,recommendations are made to increase the AEC-PID of women in each category. With thehighest nascent AEC-PID, women in the Proactive category should serve as leaders in AECclassrooms and student organizations. Considering their AEC professional experience
involved with her department’s Student Advisory Board and the Idaho Gamma Chapter of Tau Beta Pi Engineering Honor Society. Shelby is also one of the cofounders of the university’s revitalized Baja SAE Team, Bleed Blue Racing.Dr. Krishna Pakala, Boise State University Krishna Pakala, Ph.D, is an Assistant Professor in the Department of Mechanical and Biomedical En- gineering at Boise State University (Boise, Idaho) where he has been since 2012. He is the Faculty in Residence for the Engineering and Innovation Living Learning Community and the Faculty Associate for Accessibility and Universal Design for Learning. He is also the Director for the Industrial Assessment Center at Boise State University. He served as the
makerspaces “DesignCubes.”The project provided opportunities to explore both individual and joint research questions.Makerere has been able to observe the impact of a first-of-its-kind DesignCube on its students’prototyping abilities. Duke’s DesignCube purposefully limits access to certain technologies tomimic the environment of a LMIC. This allowed the Duke team to examine changes inprototyping processes when students use the container makerspace. Jointly, the teams haveexplored the possibilities of shipping container makerspaces to identify best practices. Eachmakerspace has its own design unique to its environment, and comparing the differences willenable optimized designs for future makerspaces. Since the DesignCubes were completed,students from
engage in the solving 14 Effectively use quantitative skills of problems Table 1. List of Department Goals for Course Evaluation Page 8.58.8Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering Education To assess the impact of the curricular changes and improvements on the PLC course,student responses for six of these goals (#1, #4, #7, #10, #11 and #13 in table 1) were studied forthe course offerings in Fall 2000, Spring 2002 and summer 2002. Student evaluations for springand Fall
coastdown testing works well as aclassroom engineering laboratory.IntroductionThe education of mechanical engineering students tends to favor theoretical concepts overpractical applications. Students take multiple courses in topics such as dynamics, mechanics ofsolids and fluids, thermodynamics, and design theory. However, oftentimes the only exposuremechanical engineers receive to practical engineering comes in the form of a laboratory designcourse, in which they learn the operation of tools such as the mill and lathe. Few if any educationprograms exist that integrate theoretical and practical components of engineering. According toArnold Kerr and Byron Pipes, students gain more when engaging in hands-on work1.Consequently, because of this
. However, vacuum technology is ahighly specialized area. It is costly to develop, deliver, and sustain technical programs(curriculum, equipment, instructional talent, numbers of students available locally) at communityand technical colleges. Therefore, finding a way to share programmatic resources becameessential. The partnership with Normandale Community College’s (Normandale CC) existingVacuum Technology program was developed as a result.Normandale CC offers a curriculum in Vacuum Technology using video conferencing(telepresence classroom) to teach classes synchronously to distance sites. This distanceeducation mode was developed as part of a NSF-ATE funded project and incorporates a hands-on component utilizing a Vacuum Equipment Trainer (VET
outcomes of an engineering education: “the ability to function on a multidisciplinary team” “the ability to communicate effectively” “an understanding of professional and ethical responsibility” “the broad education necessary to understand the impact of engineering solutions in aglobal and societal contest” “a recognition of the need for an ability to engage in life-long learning” “knowledge of contemporary issues” Page 7.778.1Proceedings of the 2002 American society for Engineering Education Annual Conference & Exposition Copyright 2002, American Society for Engineering
understanding of professional and ethical responsibility g) an ability to communicate effectively h) the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental, and societal context i) a recognition of the need for, and an ability to engage in life-long learning j) a knowledge of contemporary issues k) an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice.The lists of competences, attributes and learning outcomes are based on much research and havebeen modified over time to ensure that engineering education develops along with industrialneeds and college learning outcomes are adjusted
California institution ofhigher education, with a 32-year history of educating traditionally underserved populations.National University is ranked 7th nationally and 2nd in California for awarding degrees to ethnicminority populations. NU is ranked sixteenth out of 3,000 institutions nationwide in awardinggraduate degrees to minority students. National University’s central purpose is to promotecontinuous learning by offering diverse instructional approaches, encouraging scholarship,engaging in collaborative community service, and empowering its constituents to becomeresponsible citizens in an interdependent, pluralistic, global community. National Universitystudents earn their degrees in a unique one-class-per-month format, and primarily attend
context of current events and coursetopics. These initiatives include 1) a weekly teaching fellows program where faculty experimentwith inclusive practices and watch videos of their implementation and reflect on their success, 2)a weekly meeting with the faculty of engineering education as a whole where faculty regularlyshare the techniques that have been successful, and 3) a weekly reading group for students andfaculty discussing how race and inclusion can be better integrated in the classroom. Theseinitiatives established communities of practice [25] where faculty modeled what they were doingin the classroom to create a more inclusive classroom. This modelling allowed other faculty toidentify techniques that they might be able to use in their